Tuesday, June 03, 2025

 

Hydrogen’s Chicken-and-Egg Problem Persists as Buyers Hesitate

  • Hydrogen’s global narrative is shifting from broad national strategies to sector-specific use cases.

  • Market challenges persist, especially in MENA and the U.S., as high production costs, lack of long-term demand certainty, and policy uncertainty stall progress.

  • To avoid stranded assets and foster market growth, MENA countries must create robust domestic hydrogen demand.

The conversation about low-carbon hydrogen continued last week at the annual World Utilities Congress, hosted by the multinational energy and water company TAQA in Abu Dhabi.

While the hoped-for future trade between Europe and the Middle East and North Africa (MENA) remained in focus, a shift in emphasis appeared. While national goals look increasingly dubious, progress is occurring in specific industry sectors guided by international agreements. Meanwhile, MENA countries confront the imperative to develop domestic markets for their clean hydrogen.

Looking for good news

Industry observers strained to find good news during a discussion called ‘Low carbon and green hydrogen: navigating challenges to open opportunities.’

High cost, lack of demand and regulatory uncertainty were named as the main factors holding projects back.

Even the world’s premier project – NEOM Green Hydrogen in Saudi Arabia – is in danger of delays. TotalEnergies will buy 70,000 tons per year in a long-term contract, about one-third of planned production, but there are no other buyers yet according to a report by Bloomberg News last week.

In Europe, with EU mandates and pipelines for hydrogen under development, there is ongoing criticism of the regulatory regime being shaped by the EU, which many participants believe is too onerous. Europe’s incentive schemes and contract for difference programs are producing just a small part of the green fuels required to meet EU goals.

And the outlook for hydrogen in the US remains precarious, where incentives may be revoked to offset tax cuts.  

Chicken and egg

There’s a basic ‘chicken and egg’ problem afflicting the nascent industry, in which there’s no market without demand, and no demand without a market.

“We’re trying to create a market out of essentially nothing, we’re at very early stages,” said Frederik Beelitz, Head of Advisory for Central Europe, Aurora Energy Research.

“Bridging the gap between the levelized cost of hydrogen and the willingness to pay is currently the big challenge, mainly on the demand side,” he said.

“Potential offtakers for green or low-carbon hydrogen are just not willing to pay the relatively high cost that it now incurs.”

Producers want long-term off-take agreements, but off-takers such as industrial companies and utilities want shorter agreements in anticipation of the cost of hydrogen falling as production ramps up and technology improves.

"No one can commit to a 10-year price, no one can carry that risk,” said Jan Haizmann, CEO, Zero Emissions Traders Alliance.  

“But we’ve seen how quickly renewables scaled and hydrogen might follow the same path if the conditions are right."

In Europe, the chicken and egg problem is being met with push and pull policies. On the supply side, pull factors taking the levelized cost of hydrogen down include support mechanisms for capital cost and financing. On the demand side, push factors act to raise the capacity or willingness or buyers to pay. Auction devices such as Germany’s H2Global, now going into its second auction round, provide critical price information while subsidizing the difference between suppliers’ long-term prices and buyers’ preference for short-term contracts. However, it’s unclear whether these programs will build meaningful scale.

Sector specific

At last week’s conference and other recent events, there’s been less use of the term ‘hydrogen industry’ and more emphasis on industry sectors. Hydrogen and its derivatives are now seen as high value fuels for very specific applications.  

In Europe, the Renewable Energy Directive (RED III) sets clear targets for the maritime and aviation sectors, in the form of the percentage of ‘renewable fuels of non-biological origin’ (RFNBO) that fuels must contain.

This should create demand for derivatives and synthetic or e-fuels produced with hydrogen. Such fuels include ammonia and e-methanol in the maritime sector and e-kerosene in the aviation sector.  

In aviation, the Carbon Offsetting and Reduction Scheme for International Aviation (CORSIA) has entered Phase 1. Airlines can purchase carbon credits in the voluntary market, which must meet the high CORSIA standards, or they can purchase sustainable aviation fuel. The amount of emissions covered will expand greatly when Phase 2 starts in 2027 with the inclusion of Brazil, India, Russia and China in the scheme.

In global shipping, the International Maritime Organization (IMO) has issued draft rules mandating greenhouse gas emissions reductions for ships (5,000 gross tonnage or greater) and imposing penalties for non-compliance.

These rules will effectively impose the first ever global carbon price for international shipping and create demand for green and low-carbon hydrogen derivatives and biofuels. They should compel shipowners and the fuel producers and bunkering companies supplying them to substitute renewable and low-carbon fuels, including expensive-to-produce e-methanol, in place of fossil-derived fuels.  

Demand for low-carbon hydrogen should also arise in the power sector, with more electrification of transport and industry and increasing demand for electricity produced from renewable energy systems.

As the price of renewable power continues to decline, it will make hydrogen more competitive because much of its cost is based on electricity prices. Where seasonal power demand variations occur, it can play a critical role in seasonal storage.  

In fact, hydrogen production and storage could help utilities to hedge against low power prices in Europe, where renewable energy has exposed them to very low and even negative prices.

Carrots and sticks for domestic markets

For MENA countries, the prospects for large-scale green hydrogen exports look increasingly unlikely in the near future. Yet countries such as Saudi Arabia and the UAE have already invested a lot and risk stranded assets. The question is critical for Saudi Arabia, where the biggest electrolyser production in the world will launch at NEOM next year, and this hydrogen will need to find 100% offtake for 600 tonnes per day produced.  

“To have it all go out on ships is very ambitious,” said Jan Haizmann. “They will have to think about what to do with the remainder, as export opportunities may not be realized.”

The countries are already large consumers of hydrogen in their refining and chemicals industries. They have green hydrogen targets in place and plan to develop domestic demand for green and blue (with carbon capture) hydrogen.

"Countries in the region need to build their own internal markets with clear rules and binding targets that drive demand," said Haizmann. And he emphasized that they will likely need incentives to create demand.

They will need ‘carrots and sticks’, including binding targets that compel companies to procure certain volumes of low carbon fuels for their operations or face penalties, because a purely voluntary system that mostly relies on export scenarios is unlikely to work.

As an example, he pointed to the incentives that, over time, supported the rise of renewable energy systems in many regions. 

“With every new technology, there is a need to incentivize it to get to high volumes, and when high volumes are achieved, then prices come down,” he said. 

“The production opportunities for hydrogen in MENA are fantastic, almost unrivalled, because of the sunshine here,” he said. “But it doesn’t remove the need to do something to realize the opportunities.”

By Alan Mammoser for Oilprice.com


Why the Hydrogen Dream Remains Unfulfilled

  • President Bush’s 2003 vision for a hydrogen economy has not been realized due to significant challenges including a lack of refueling infrastructure and the high cost of clean hydrogen production.

  • Battery-electric vehicles have become the dominant technology in the zero-emission vehicle market, surpassing hydrogen fuel cells due to advancements in battery technology and greater industry investment.

  • While hydrogen still holds promise for industrial applications such as heavy trucking and steelmaking, its use in personal vehicles is hindered by energy inefficiency and inconsistent policy support.

In his 2003 State of the Union address, President George W. Bush offered a bold vision of a cleaner energy future. Standing before Congress and the nation, he announced a $1.2 billion initiative to develop hydrogen-powered vehicles, proclaiming that “the first car driven by a child born today could be powered by hydrogen and pollution-free.” 

The appeal was clear: a shift away from imported oil and a meaningful reduction in vehicle emissions. After all, the combustion product of hydrogen is just water. 

That child would be turning 22 this year. But the hydrogen car that was supposed to carry them into a cleaner future is still not in their driveway. In fact, outside of a few test markets, it’s not in anyone’s driveway.

So, what happened?

The Promise—and the Problem

Bush’s speech wasn’t just political theater. At the time, hydrogen fuel cells were seen as a potential long-term alternative to gasoline-powered internal combustion engines. Automakers like Toyota and Honda were investing heavily in hydrogen vehicle prototypes. And with oil prices rising, the idea of tapping into the universe’s most abundant element for clean energy made good sense—at least on paper.

But two decades later, the hydrogen economy has failed to materialize in any meaningful way for the average consumer. The reasons are complex, but five key factors stand out.

1. The Infrastructure That Never Came

Hydrogen is a gas with low volumetric energy density. It must be compressed to high pressure or liquefied and then transported from its production facility to its final destination. Those steps are energy intensive. Cars then require an entirely separate refueling infrastructure from gasoline or electric vehicles.

That’s not a small hurdle—it’s a multi-billion-dollar roadblock. Unlike electric vehicles, which can charge at home or increasingly in public parking lots, hydrogen vehicles depend on specialized high-pressure refueling stations that are costly to build and maintain.

Today, the U.S. has fewer than 60 public hydrogen stations, and nearly all of them are in California. Without nationwide infrastructure, widespread consumer adoption remains elusive. And without consumers, infrastructure investment remains commercially unjustifiable. It’s a chicken-and-egg problem with no clear resolution in sight.

2. The Cost of Clean Hydrogen

Most of today’s hydrogen—about 95% globally—is produced from natural gas in a process that emits significant carbon dioxide. This has been dubbed “gray hydrogen” and is cheap but dirty when it comes to carbon emissions. “Green hydrogen,” made via electrolysis of water powered by renewable energy, avoids emissions but costs two to three times more to produce. 

Government subsidies are available that provide incentives for green hydrogen production, but President Trump’s “One Big Beautiful Bill Act” would terminate the 45V tax credit for hydrogen starting in 2026, potentially derailing nascent green hydrogen projects and significantly setting back progress.

Electrolyzer technology is improving, and costs are slowly declining. But green hydrogen still struggles to compete with both gasoline and electricity from the grid. Until production costs drop substantially—or carbon pricing levels the playing field—hydrogen for transportation will remain economically disadvantaged.

3. The Rise of Battery Electric Vehicles

In 2003, hydrogen fuel cells and battery-electric vehicles (BEVs) were competing for the future of zero-emission transportation. Hydrogen had the early momentum—Toyota’s first fuel-cell vehicle hit U.S. roads in 2002. But then came Tesla, followed by a wide variety of electric vehicle offerings.

Over the past 15 years, improvements in lithium-ion battery density, charging infrastructure, and manufacturing scale have made BEVs the dominant clean car technology. The industry bet on batteries, and it paid off. Today, global automakers are planning to invest $1.2 trillion in electric vehicles and batteries through 2030, with virtually no comparable commitment to hydrogen-powered cars.

4. Policy Whiplash

Inconsistent energy policies across different presidential administrations are a challenge for every energy option. While the Bush administration gave hydrogen an initial boost, policy support fizzled under subsequent administrations. President Obama emphasized battery-electric vehicles and solar, while President Trump focused on fossil fuels. Only recently—under the Inflation Reduction Act and the bipartisan infrastructure law—has hydrogen regained some federal momentum.

But even now, the lion’s share of support goes toward hydrogen’s industrial applications—steel, ammonia, long-haul trucking—not personal vehicles. Without sustained, targeted subsidies and coordination, hydrogen cars may remain a niche solution in a battery-first market.

5. The Efficiency Dilemma

One of hydrogen’s biggest drawbacks is its energy inefficiency. To power a hydrogen vehicle, you must first generate electricity, use that electricity to split water into hydrogen, compress and transport the hydrogen, then convert it back into power for the vehicle. Each step incurs energy losses.

In contrast, battery-electric vehicles store electricity directly, with far less waste. The end result? A BEV can use renewable energy three times more efficiently than a hydrogen-powered car. That math doesn’t favor hydrogen—at least not for passenger vehicles.

Where Hydrogen Still Holds Promise

Despite these challenges, hydrogen is one of the most important industrial chemicals globally. In fact, it’s gaining traction in sectors where batteries struggle—like heavy trucking, shipping, and aviation. Hydrogen is also essential if we are to decarbonize certain industrial processes, such as steelmaking and fertilizer production.

The International Energy Agency projects that clean hydrogen could play a significant role in a net-zero emissions future. But that role is more likely to involve powering cargo ships and industrial furnaces than personal transportation.

A Vision Ahead of Its Time?

To his credit, George W. Bush’s vision for a hydrogen economy was based on a desire to innovate, reduce emissions, and secure America’s energy future. But the execution proved far more difficult than the ambition.

In 2025, hydrogen still holds promise—but it’s not the silver bullet that many once hoped. The path forward will require technological breakthroughs, regulatory clarity, and realistic expectations about where hydrogen truly adds value. Which, honestly, all of which was said in 2003.

Bush was right to dream big. But as the past two decades have shown, turning that dream into reality involved a lot more hurdles than many proponents initially envisioned.

By Robert Rapier for Oilprice.com


Trump’s ‘Beautiful’ Bill Casts a Cloud Over Hydrogen’s Future

  • Trump’s new House-passed bill aims to repeal key clean energy tax credits, including the 45V hydrogen subsidy and the 48 Investment Tax Credit, jeopardizing major U.S. hydrogen and ammonia projects.

  • Companies like Air Products, CF Industries, and Plug Power warn that losing 45V credits could make low-carbon hydrogen economically unviable.

  • While hydrogen loses ground, carbon capture survives intact, with 45Q tax credits preserved, for now.

A week ago, the U.S. House of Representatives passed Trump’s “Big, Beautiful Bill” designed to deploy large tax cuts, extra spending on defense and immigration enforcement by primarily leveraging deep cuts to the Inflation Reduction Act (IRA) of 2022.

With the contentious bill now headed for the Senate, some energy experts are warning of dire consequences for some renewable energy industries if it becomes law. To wit, the sweeping policy bill seeks to phase out billions in tax credits for the budding green hydrogen and EV battery industries. Created under the Inflation Reduction Act during the Biden administration, the Section 45V tax credit has been a major boon for low-carbon hydrogen and ammonia projects across the country.

This could be profound: a total of 46 hydrogen and ammonia-related projects were qualified to receive 45V tax benefits in Louisiana alone, including massive builds from Air Products & Chemicals (NYSE:APD), Clean Hydrogen Works and Bia Energy.

Over the past couple of years, Louisiana has emerged as the country’s leading hydrogen hub, focused on industry growth and sustainability. The state is home to some of the largest hydrogen projects in the country,  including Clean Hydrogen Works' $7.5 billion ammonia and blue hydrogen project slated to create 1,472 jobs; Air Products' $4.5 billion blue hydrogen plant;  Bia Energy Operating Company's $550 million blue hydrogen project and Monarch Energy's $426 million green hydrogen project.

Losing 45V tax credits may seriously erode the economic viability of these companies: according to company filings, Air Products received $19.7 million in federal tax credits in 2024, with the company’s federal tax credit claims jumping nearly 40% between 2020 and 2024. That’s perhaps not a coincidence when you consider that the 45V program kicked off in 2021 after former President Joe Biden passed the IRA.

With over 10 million tons of gross annual output, Illinois-based CF Industries (NYSE:CF) is one of the largest ammonia producers in the world, with Louisiana accounting for half of the company’s output. CF has already secured renewable energy certificates that qualify its pilot electrolyzer project for 45V tax credits when operational. When asked about the impact of the termination of 45V credits, Ryan Stiles, who manages the company’s ammonia production, said that some customers are likely to be less tolerant of paying more for low-carbon ammonia without the 45V subsidies.

The hydrogen sector heavyweight, Plug Power (NASDAQ:PLUG), only began operations in Louisiana a month ago; however, the company  has previously flagged the importance of the 45V credit, stating that any limitation “could be materially adverse to the Company and its near-term hydrogen generation projects.”

Yet another provision in Trump’s big bill would spell doom for Section 48 Investment Tax Credit for certain clean energy technologies, ending eligibility for the credits in 2032--three years earlier than the IRA intended.

On a brighter note, the bill still provides tax credits for carbon capture and sequestration under Section 45Q.

We expect our investment into the Donaldsonville CCS project will increase our free cash flow in the range of $100 million per year due to the United States’ 45Q tax credit for permanently sequestering CO2,” CF Industries said in its annual report.

CF Industries is not the only energy company that will be counting its lucky stars for Trump’s big bill leaving CCS credits intact. Big Oil has invested considerable capital into carbon capture projects, including Exxon Mobil’s (NYSE:XOM) latest CCS project targeting power-hungry U.S. data centers. The Oil & Gas giant has unveiled a groundbreaking plan wherein the company will provide low-carbon power to the U.S. data centers powering the AI  boom. Exxon’s proposal outlines a first-of-its-kind facility that will use natural gas to produce electricity while capturing more than 90% of the CO2 emissions. The captured emissions will then be stored deep underground. ExxonMobil’s current CCS technology supports industries involved in steel, hydrogen and ammonia production, with the company having secured agreements to store up to 6.7 million tons of CO2 annually for these sectors.

Meanwhile, last month, Shell (NYSE:SHEL), Equinor (NYSE:EQNR), and TotalEnergies (NYSE:TTE) expanded their Northern Lights CCS project with $714 million in total investments.  The decision comes after a deal with Swedish energy company, Stockholm Exergi, which has pledged to send up to 900,000 tonnes of CO? each year over a 5-year span. With the additional investment, Northern Lights is now capable of storing at least 5 million tonnes of CO? per year, more than triple the original target of 1.5 million tonnes.

By Alex Kimani for Oilprice.com

 

Peru says large-scale informal copper mining exists and could grow

(Reference image by the Peruvian Ministry of Energy and Mines, Twitter).

Peru’s government is acknowledging for the first time the existence of large-scale informal mining of copper, warning that high prices could see the activity grow in the near future.

The government is on alert for large artisanal mining of copper, especially in an area where mineral rights belong to the Las Bambas mine run by China’s MMG Ltd., Energy and Mines Minister Jorge Montero told foreign media in Lima on Tuesday.

“That is the largest non-formal copper production operation at this time that we have identified,” Montero said. “The alert is that in that area we already have large-scale mining operations working with copper.”

The informal mine, which is called Apu Chunta and operated by the indigenous community of Pamputa, was featured in a Bloomberg story in April. Anual output at the mine is estimated at 30,000 metric tons, worth almost $300 million at current prices. While Pamputa owns the land, Las Bambas holds the rights to the copper being extracted. The mining company also plans to build an open pit in the area in the 2030s, for which it would have to buy the land from the community.

Informal mining and conflicts between property and concession holders has become a key issue for Peru’s mining industry, with the government struggling to strike a balance. The nation is the world’s No. 3 copper supplier and the top gold producer in South America. Its rich deposits have attracted hundreds of thousands of small-scale miners, who work predominantly on lands where they do not hold mineral rights.

Informal operators have encroached on exploration projects operated by Southern Copper Corp. and First Quantum Minerals Ltd. The minister said Teck Resources Ltd.’s Zafranal project has also been affected. To be sure, informal copper output is still minimal compared with formal production.

(By Marcelo Rochabrun)

 

US skips hike in UK steel and aluminum tariffs as both countries eye quick trade deal

(Stock image.)

The United States on Tuesday announced it would skip doubling steel and aluminum tariffs for Britain, hours after the UK government said the two countries agreed on the need to implement a tariff relief deal as soon as possible.

The U.S. announcement, which exempts British steel and aluminum from a doubling of tariffs to 50%, came in a proclamation signed by U.S. President Donald Trump on Tuesday that will raise metals tariffs for other countries from June 4.

British trade minister Jonathan Reynolds and U.S. Trade Representative Jamieson Greer met in Paris on Tuesday during a meeting of the Organization for Economic Cooperation and Development.

“The UK was the first country to secure a trade deal with the U.S. earlier this month and we remain committed to protecting British business and jobs across key sectors,” a UK government spokesperson said.

“We’re pleased that as a result of our agreement with the U.S., UK steel will not be subject to these additional tariffs. We will continue to work with the U.S. to implement our agreement, which will see the 25% U.S. tariffs on steel removed.”

British Prime Minister Keir Starmer and Trump on May 8 agreed to reduce tariffs on UK imports of cars and steel to the U.S., with Britain agreeing to lower tariffs on beef and ethanol, but implementation of the deal has been delayed.

Industry body UK Steel had earlier warned that doubled tariffs would be a “body blow” to the British steel sector.

Britain’s trade ministry said Greer and Reynolds met to discuss the pace of implementation of the May 8 bilateral trade deal, and both sides agreed that businesses and consumers in each country needed to start feeling its benefits.

“The pair discussed their shared desire to implement the Economic Prosperity Deal, including implementing agreements on sectoral tariffs as soon as possible,” Britain’s trade ministry said in a statement after the meeting.

Greer’s office had no immediate comment on the meeting.

Before the meeting, Starmer’s spokesperson said, once implemented, the deal with Washington would eliminate tariffs on the “majority of steel products” exported to the United States, and that “we’d continue to expect that to be the case” regardless of the 50% tariff announced by Trump.

He also said that industry minister Sarah Jones was meeting with representatives from the steel sector on Tuesday.

Asked earlier if the 50% tariffs would go ahead on Wednesday, Greer, speaking French with reporters in Paris, said: “We’ll see.”

Reynolds is on a three-day trip to Paris and Brussels. After meetings with Group of Seven and OECD counterparts in Paris, he will hold talks with EU trade commissioner Maros Sefcovic.

Britain struck deals with the U.S. and the European Union – its two biggest trading partners – last month, but both are political pacts rather than formal trade agreements, and the details of their implementation have not been set.

With the EU deal, plans to remove red tape on the food sector are yet to be finalised. In advance of that agreement coming into force, Britain on Monday said it would scrap border checks on fruit and vegetables imported from the EU that had been due to be effective beginning in July.

(Reporting by Alistair Smout in London, Leigh Thomas in Paris and Andrea Shalal and Jasper Ward in Washington; Editing by Tomasz Janowski, Lisa Shumaker and Bill Berkrot)

 

MTM Critical Metals reports high-grade antimony recovery from US e-waste  

AI-generated stock image by Anastasiia.

MTM Critical Metals (ASX: MTM; OTCQB: MTMCF) announced Tuesday it has achieved 98% recovery of antimony from US electronic waste, extracting 3.13% Sb from printed circuit board feedstock.  

The Australian company, whose US, Houston-based subsidiary Flash Metals USA, is commercializing its proprietary Flash Joule Heating (FJH) technology to recover critical metals and gold from E-waste.  

Last month, MTM secured a pre-permitted site in the US Golf Coast petrochemical corridor in Chambers County, Texas, as its first facility. 

The tested feedstock — the same urban waste material from which MTM previously reported ultra-high-grade gold, silver, and copper recoveries — highlights the untapped value of complex e-waste streams, MTM said.

The tested material — sourced from U.S.-origin printed circuit boards — had undergone upstream thermal processing to remove plastics and volatiles, yielding a concentrated, metal-rich carbonaceous residue.  

This “urban ore” contained 3.13% antimony, a grade more than three times higher than some of the world’s largest primary deposits, including China’s Xikuangshan, and significantly above the global mined ore range of 0.1–1.0% Sb, MTM said.  

These results, the company said, directly support US efforts to re-establish domestic refining capacity.  

MTM said it has already secured over 1,100 tonnes per year of e-waste feedstock under long-term agreements with U.S. suppliers, which provide a strong foundation for commercial deployment. 

“This result demonstrates the strong technical and commercial potential of our FJH process for recovering strategic metals from e-waste,” MTM CEO Michael Walshe said in a news release

 “Achieving 98% recovery of antimony at over 3% grade, from domestic urban feedstock, is particularly significant given the U.S. currently has no meaningful domestic Sb production,” Walshe said. “With antimony designated as a critical metal by both the DoD and DoE, these outcomes reinforce MTM’s ability to contribute to onshore supply solutions for high-priority metals.”  

Walshe also said the company is engaging with US government agencies, including the DoD and DoE, regarding potential funding to support domestic critical metal recovery. 

 

First Quantum faces $20M monthly bill for Panama copper mine care

Cobre Panama’s first full year of operation was 2019. (Image courtesy of Cobre Panama.)

First Quantum Minerals (TSX: FM) will spend approximately $20 million a month to maintain its idled Cobre Panamá copper mine under a recently approved care and maintenance plan.

Roderick Gutiérrez, president of the Panamanian Mining Chamber, said the cost would be covered by selling copper concentrate stored at the site. The company currently has 121,000 tonnes of concentrate, though some has deteriorated after nearly two years of inactivity. Reprocessing the degraded material may not be economically feasible, Gutiérrez noted in an interview with local media.

The care mine plan includes updated environmental and legal protocols and is expected to take six to twelve months to implement, depending on equipment conditions. Oversight will involve ten government agencies, including Panama’s Ministry of the Environment.

Cobre Panamá, a $10-billion open-pit operation, was shuttered by presidential decree in late 2023. Before its closure, the mine accounted for roughly 5% of Panama’s GDP and generated about 40% of First Quantum’s annual revenue. Its shutdown has severely impacted both the company and the national economy.

Current President José Raúl Mulino has expressed interest in renegotiating the mine’s future under a model that prioritizes national ownership.  


“Let’s be smart and get the most benefit as Panamanians from a mine we already have,” Mulino said in May.

The President warned that fully closing the mine could take up to 15 years due to its scale and economic significance. The operation had supported tens of thousands of direct and indirect jobs.

Before the forced halt of operations, Cobre Panamá produced more than 330,000 tonnes of copper and was on track to reach an annual throughput of 100 million tonnes by the end of 2024, placing it near the top of the world’s copper throughput ranking.

 

Mount Etna erupts, unleashing lava – and possibly hidden minerals

Mount Etna volcano with smoke at dawn and the Catania city, Sicily. Stock image.

Italy’s Mount Etna, Europe’s tallest and most active volcano, erupted this week in a spectacular display, sending plumes of ash and gas high into the Sicilian sky and captivating onlookers with one of its most dramatic outbursts in years.

The eruption originated from the volcano’s southeast crater, where a combination of a white ash plume and a grey cloud, resulting from a crater collapse and subsequent avalanche, produced a powerful pyroclastic flow. While pyroclastic flows are highly dangerous due to their heat and mobility, the event occurred in an uninhabited area.

Boris Behncke, a volcanologist from Italy’s National Institute of Geophysics and Volcanology, told The Times that the episode, though visually striking, was relatively normal. Regional officials confirmed that lava flows remained within natural containment zones and posed no threat to the public.

Civil protection authorities warned tourists to stay away due to potential eruption developments. Some residents and visitors were unnerved, especially by black smoke that followed the initial plume.

The eruption is the most significant Mount Etna has had since 2014.

Hidden riches beneath

While eruptions like Etna’s can be disruptive, they also reveal the rich mineral composition of the Earth’s interior. Volcanic activity brings to the surface materials from deep within the Earth, offering scientists a unique opportunity to study the planet’s inner workings.

Mount Etna’s lava is particularly intriguing. Unlike many of Italy’s volcanoes, which are formed by the subduction of the Ionian Sea beneath the country, Etna’s origins are more complex.

Geochemists have found that Etna’s lavas are rich in magnesium and iron, elements typically found deep in the mantle, as well as potassium, which is more common in the crust. This unique composition suggests that Etna taps into both deep mantle sources and crustal materials, making it a valuable site for studying the Earth’s geology.

Volcanic regions like Etna are known to be rich in various minerals and elements. Mount Erebus, one of the world’s most active volcanoes, is estimated to spew around 80 grams of gold into the frigid air of Antarctica on a daily basis, according to studies.

The McDermitt Caldera, a large volcanic crater measuring roughly 45 km long and 35 km wide in southeastern Oregon and northern Nevada, is said to contain the world’s largest lithium reservoir inside an ancient supervolcano.

 

Fouling Control More Important For Vessel Operators After IMO Agreement

AkzoNobel

Published Jun 2, 2025 8:36 AM by Chris Birkert

 

Fouling control systems have never been more important when it comes to helping shipowners reduce carbon emissions and improve vessel efficiency to comply with ever-evolving regulations.

Over the past few years, vessel operators have had to adjust to the Carbon Intensity Indicator (CII), Fuel EU, and EU Emissions Trade System (EU ETS) regulations as the governing bodies map a route for the industry to reach net zero by 2050.

 

Chris Birkert, Marine Segment Manager, AkzoNobel

 

Vessel operators will now have to navigate a new challenge on the horizon after a global deal agreement on mid-term measures was passed at the UN's International Maritime Organisation (IMO) meeting in April, following almost a decade of negotiations.

From 2028, owners of large vessels will be compelled to reduce their greenhouse gas intensity in order to meet the guidance and be part of a carbon pricing mechanism that will add cost to emissions.

International® marine coatings experts are on hand and positioned to support customers to navigate changing regulations – especially relating to the selection of fouling control solutions where their unique Intertrac® Vision digital tool helps to plot operational profiles, quantify the impact of regulations, and provide a through-cycle view on vessel performance.

Shipping has become the first industry in the world with internationally mandated targets to reduce emissions and, according to maritime consultancy UMAS, the historic agreement could result in an eight percent reduction in emissions by 2030.

The deal is a historic moment for the industry and will further drive home the importance of reducing fuel consumption to meet targets and minimize the cost of carbon by selecting and using fouling control coatings and technologies to reduce drag and fuel consumption.

It follows the introduction of EU ETS, a levy on emissions for voyages between EU ports, and CII regulations, which resulted in vessels being rated A to E, best to worst, according to their carbon intensity data. 

Clarksons’ Shipping Intelligence Network (Clarksons’ CO2 Benchmark Tracker - Nov 2024) predicted approximately 5,836 vessels, 23 percent of the world’s fleet, have been rated D under the CII regulation and their operators have three years to reduce emissions or risk being taken out of service.

The report also estimated that 1,109 vessels, four percent of the global fleet, were ranked E last year and have just 12 months to become compliant or face decommission. Shipowners, whose vessels are rated D for three consecutive years or E for one year, must also submit a corrective action plan.

CII regulations have been a key discussion point and last year International® marine coatings assisted a record number of shipowners in making more informed, data-driven choices about their fouling control coatings. Our solutions not only ensure regulatory compliance but also enhance vessel performance and sustainability.

Marine coatings and technologies, in isolation, are not enough for shipowners to address today’s regulatory challenges. They need trusted expertise and proven performance, along with tailored solutions, to make data-driven and informed investment decisions. Consequently, we have seen an increase in the number of our customers using Intertrac Vision, our big data predictive tool that allows shipowners and operators to find the right coating scheme for their specific needs. 

Intertrac Vision tailors coating schemes to the individual needs of each vessel, analyzing insights from more than 200,000 drydock events and 10,000 vessel operations, and evaluating the return on investment based on the specified vessel type and operational scenarios. 

 

 

To further assist shipowners and operators, Intertrac Vision includes recently updated features such as total cost of ownership analysis, CII rating predictions, EU ETS impact assessment, and extended docking cycles. 

Actionable insights to assess the impact of fouling control coatings on vessel fuel consumption and CO2 emissions while in transit are provided by the tool, enabling our in-house hull performance experts to collaborate closely with customers. This partnership approach simplifies the coating selection process and delivers data-driven outcomes.

Last year International® published a whitepaper that demonstrated the high degree of accuracy of Intertrac Vision, as well as the contribution of the Intercept® 8500 LPP coating to vessel performance. Our tool projected a 1.4 percent speed loss over a 60-month in-service period which proved to be in line with actual vessel performance. 

Furthermore, the application of Intercept 8500 LPP led to a reduction of vessel carbon emissions of approximately 8,500 tonnes over the five years. As a result, the vessel maintained a CII ‘A’ grade rating throughout the study which resulted in the customer achieving both performance and decarbonization targets.

We have previously partnered with another leading marine-based business and released a whitepaper outlining how ship operators can reduce their fuel use and emissions output by using Silverstream® Technologies' air lubrication system (ALS) with AkzoNobel’s fouling control coatings. The whitepaper explored how a combination of air lubrication and the right fouling control coating can reduce hull resistance and increase efficiency, providing shipowners with a “clear competitive edge”.

Silverstream’s system generates a microbubble carpet beneath a ship’s hull to reduce the vessel’s frictional resistance, while AkzoNobel provides protective coatings and effective fouling control to minimize a ship’s frictional resistance through maintenance of a smooth and clean hull surface.

The results showed that ultra-performance biocidal or foul release coatings can work in synergy with the Silverstream system to help maintain, and even improve, the ALS’s resistance reduction capabilities. 

At International®, we recognize the challenges that regulations pose to our customers. As discussed earlier, the potential loss of nearly a quarter of vessels from the global fleet due to CII regulations introduces significant new challenges for shipowners and operators.

As a trusted partner, we’ve helped customers both improve and maintain their CII rating and offset the EU ETS surcharge which came into force last year when shipowners paid 40 percent of their emissions, which increased to 70 percent for this year and 100 percent from 2026.

The latest carbon levy passed at the IMO meeting in April is set to be introduced in 2028 with larger penalties and will affect shipping routes across the world should vessel operators fail to reduce their carbon intensive fuels.

However, there are steps that shipowners can take to invest in regulation compliance and minimize penalties. With nearly 150 years of coatings expertise in the marine industry, supported by our expert hull performance team and data-driven insights and forecasting tools, we are uniquely positioned to help shipowners and operators achieve compliance while maintaining operational efficiency.

 

Chris Birkert is Marine Segment Manager at AkzoNobel. For more information, visit: Marine Coatings at International-marine

This article is sponsored by AkzoNobel.
 

The opinions expressed herein are the author's and not necessarily those of The Maritime Executive.

 

Turkey’s First FPSO Arrives in the Black Sea

Turkey's first FPSO
Turkey's first FPSO arriving (Ministry of Energy and Natural Resources)

Published Jun 2, 2025 1:14 PM by The Maritime Executive

 

 

Turkey’s first floating production, storage, and offloading (FPSO) vessel, Osman Gazi, arrived in the Black Sea over the weekend, where its 20-year contract for gas production is expected to start next year. The FPSO will help double the gas output from Turkey’s deepwater Sakarya gas field, which is currently producing 9 million cubic meters(mcm) of gas daily. 

Osman Gazi’s maximum natural gas processing capacity is 10.5 mcm and has a transfer capacity of 10 mcm. With the installation of the vessel, the Sakarya gas field will reach a daily production of 20 mcm, which will help meet the natural gas needs of 8 million households in Turkey, according to Energy and Natural Resources Minister Alparslan Bayraktar.

In the past few years, Turkey has intensified efforts to expand natural gas production in the Black Sea. The country, which imports over 90 percent of its energy needs, wants to cut the import bill by developing domestic resources.

 

 

It is part of these plans that in 2023 the state energy firm TPAO acquired the FPSO from the floater specialist BW Offshore. The platform arrived in Turkey last year in September onboard Boka Vanguard, a semi-submersible heavy transport vessel owned by Boskalis. The platform has been undergoing technical preparations at a shipyard in Çanakkale city. It was floated out on May 27 and docked at the Port of Filyos in the Black Sea on Saturday. 

The FPSO is 298.5 meters long, 56 meters wide, and has a personnel capacity of 140 people. The natural gas processed on the platform will be delivered on land via a 161-kilometer-long transmission line. It will then be fed to the national grid in a ready-to-use form.

The FPSO adds to the growing list of vessels that Turkey has acquired recently to boost its energy security. Turkey launched its first drillship, Fatih, in 2017, followed by Yavuz in 2018, Kanuni in 2020 and Abdülhamid Han in 2021. Fatih helped in the discovery of the Sakarya gas field in August 2020. 

Last month, Turkey announced the discovery of a new reserve of 75 billion cubic meters (bcm) of natural gas in the Black Sea. The reserve was discovered during drilling in the Goktepe-3 well, at a depth of 3,500 meters. 

 

Singapore - France Plan Maritime Pilot Projects Under Enhanced Partnership

CMA CGM containership in Singapore
CMA CGM fuels its first methanol vessel in Singapore and now will support the first bio-methanol bunkering (CMA CGM)

Published Jun 2, 2025 7:53 PM by The Maritime Executive

 


Highlighting their shared commitment to advancing sustainability, innovation, and secure maritime solutions, the governments of Singapore and France announced an enhanced maritime partnership agreement. The move which is designed to advance key initiatives in sustainability and digitalization was announced after French President Emmanuel Macron conducted a two-day visit to the city-state during his tour of Asia at the end of May.

“This collaboration reflects our shared commitment to advancing sustainable, innovative, and secure maritime solutions,” said Eric Banel, Director General for Maritime Affairs, Fisheries and Aquaculture in Singapore. “Both France and Singapore, as global maritime hubs and key worldwide players in innovation and engineering, recognize the strategic importance of strengthening cooperation in port digitalization, green shipping, and maritime safety and security.”

French shipping company CMA CGM will also be joining in with the initiatives. It will participate as it seeks to support fuel innovation and the adoption of digital standards for the industry.

One of the key pilots will focus on supporting the adoption of biomethane. Working to advance maritime decarbonization, the partners will explore the development of a bio-methane supply chain and certification program.

They are planning the first bio-methane bunkering trail which will take place in Singapore. They will develop a certification framework similar to the efforts Singapore undertook to develop the first ammonia bunkering. The port conducted the first ammonia bunkering as a marine fuel in March 2024 and working with CMA CGM will conduct the first for bio-methane.

The French shipping company will also support an initiative between France’s HAROPA Port, the operator for the ports of Le Havre, Rouen, and Paris, and the Port of Marseille-Fos authority to advance digitization. This initiative will focus on port call optimization and maritime digitalization testing ship-to-shore data exchange to automate and streamline port clearance processes. By reducing manual documentation, they believe the industry will improve the timeliness and accuracy of operational data. They will look to support efforts to have internationally recognized data standards.

 

UK Pledges to Double Nuclear Attack Submarine Force

UK submarine
UK government is pledging to expand its nuclear submarine fleet (Royal Navy)

Published Jun 2, 2025 1:25 PM by The Maritime Executive

 

 

A Strategic Defence Review (SDR) commissioned by the British government and to be published on June 2 has set a course for a doubling of the United Kingdom’s nuclear attack submarine force.

The Royal Navy is currently deploying its seven-strong fleet of Astute nuclear attack submarines. The sixth boat in the Astute fleet HMS Agamemnon (S123) was launched last October, and the final boat HMS Achilles (S125) is due to enter service in late 2026.

The 12 new AUKUS submarines to replace the Astute class will be built by BAE in Barrow in Furness, where the fabrication facility is being doubled in size so as to be able to turn out a new submarine every 18 months. The AUKUS design will be common to both the Royal Navy and the Royal Australian Navy, who are scheduled to take at least eight AUKUS submarines, to be built by a joint venture by ASC and BAE at the Osborne Naval Shipyard in South Australia.  The first British AUKUS submarine is likely to be delivered in the late 2030s, and the first Australian submarine in the early 2040s.

While the AUKUS design is a long way from being fixed, the submarines are likely to feature both vertical launch tubes for missiles and forward launch tubes for torpedoes. Although nuclear-powered, there is currently no intention for the AUKUS submarines in British service to perform the nuclear deterrence role. With the UK’s nuclear deterrence currently provided solely by the four boats of the Vanguard Class, this role will be taken over by four new Dreadnought Class submarines, the first three of which are already under construction in Barrow - the first of class HMS Dreadnought is likely to come into service in 2032. However, the SDR has recommended that the UK’s nuclear capability be broadened, so it is possible that the vertically-launched missiles on British AUKUS submarines could eventually be armed with nuclear warheads. The Royal Air Force is also likely to be re-equipped with nuclear weapons, a capability dropped in 1998, with F-35A aircraft to be procured for this purpose. 

Amongst 62 SDR recommendations, all apparently accepted by the British government, one of the first to be implemented will be a significant increase in explosives, missile, and ammunition manufacturing capability, with four new factories to be commissioned, dispersed across the UK. 

The SDR has come in for some criticism because the review has made recommendations based on an assumption that UK defense spending will increase to 3 percent of GDP. The government has not yet specified by when this target pledge will be honored.